An air purification device for five constant systems

Abstract

The present invention relates to an air purification device for a five-constant system, including a shell, an air input pipe, a drying module, a circulation module, a humidification module, and an air output pipe. The present application can adjust and circulate according to the air humidity in a family room. When the air humidity is too high, the drying module uses a desiccant to absorb the moisture in the air, and at the same time, the desiccant is vibrated and blown away by a vibration mechanism and an air blowing mechanism to improve the utilization rate of the desiccant. Subsequently, the used humidifier is regularly discharged, evaporated, crystallized, and circulated, thereby achieving the purpose of recycling; when the air humidity is appropriate, the circulation module purifies and circulates the air; when the humidity in the air is too low, the humidification module humidifies the room. The present application has played a good effect on the air purification cycle of the five-constant system. The product has the functions of automatic detection, adjustable type, and recycling, which improves the efficiency of air purification cycle regulation.

Description

Technical Field

[0001] The invention relates to the field of air purification, and in particular to an air purification device for a five-constant system. Background Art

[0002] The five-constant system is widely used in home, commercial and other fields: in the home field, it can effectively improve the comfort and health of the living environment; in the commercial field, such as shopping malls, hotels, guesthouses and other places, the five-constant system can also play an important role. The five-constant system is an advanced intelligent environmental control system that integrates five major functions: constant temperature, constant humidity, constant oxygen, constant cleanliness and constant quietness. It aims to provide users with a comfortable, healthy, low-carbon, energy-saving and intelligent living environment. At present, the five-constant system is widely used. Since the air circulation in the family room cannot be adjusted according to the air humidity, this time, the air in the room with different air humidity is adjusted for purification circulation to ensure that the air humidity and oxygen content in the room are suitable for human life.

[0003] Traditional production devices, such as the Chinese patent with announcement number CN 221120476 U, disclose a ventilator with a drying mechanism, which effectively solves the problem that the ventilator does not have the air dehumidification and drying function and is inconvenient to clean the filter; it includes a wind tube, a condenser is fixedly connected to the rear side of the wind tube, the output end of the condenser is fixedly connected to a condensation tube evenly distributed in the wind tube, a water storage tank is opened on the lower side wall of the wind tube below the condensation tube, a fixed frame is fixedly connected to the right side of the condensation tube in the wind tube, a plurality of wind plates evenly distributed along the upper and lower sides are rotatably connected in the fixed frame, and a sleeve rod is fixedly connected to the front end of the wind plate. This device has an ingenious structure and is easy to use. By setting a condenser, a condensation tube, and a water storage tank, the condensation tube can be used to absorb water vapor in the air when the air passes through the wind tube, condense into water droplets attached to the condensation tube, and finally fall into the water storage tank for storage, thereby achieving the purpose of drying the air and reducing the air humidity.

[0004] In the above technology, the air is mainly dehumidified through the condensation device. However, the position of the above-mentioned condenser is relatively fixed, and the utilization rates of the area facing the air outlet and the leeward area are different, resulting in that the use effect of the condenser is not optimal. In addition, the condenser will produce water during the condensation process, which needs to drip and discharge by itself. Failure to discharge in time will cause water to overflow from the tank and humidify the air, so that the output air does not reach the predetermined dryness value, affecting the drying and dehumidification of the air.

[0005] Based on this, there is still room for improvement in existing air purification technology. Summary of the invention

[0006] The purpose of the present invention is to provide an air purification device for a five-constant system to solve the deficiencies in the above-mentioned prior art.

[0007] In order to achieve the above object, the present invention provides the following technical solutions:

[0008] An air purification device for a five-constant system comprises: a shell, a universal wheel is arranged at the lower end of which, and a dryness and humidity sensor is arranged on the upper side of the front end of the shell; an air input pipe is installed at the front end inside the shell; a drying module is installed above the shell body inside the shell, and the drying module performs cyclic drying and regulation on the air humidity; a circulation module is installed in the middle of the shell body, and the circulation module circulates and discharges the air; a humidification module is installed at the lower part of the shell body inside the shell, and the humidification module performs humidification circulation on the air; and an air output pipe is installed at the rear end inside the shell.

[0009] The drying module includes a heating plate, a storage shell, a reset mechanism, a rotating shaft, a threaded sleeve, a trigger mechanism, a bevel gear, a vibration mechanism, a drying mechanism, an air blowing mechanism, and a storage mechanism. The heating plate is installed around the bottom plate, the upper end of the heating plate is connected to the storage shell, the storage shell is connected to the shell through a connecting piece, the reset mechanism is installed on the bottom plate through a supporting column, a rotating shaft is arranged in the middle of the bottom plate, a threaded sleeve is sleeved and installed at the lower end of the rotating shaft, a trigger mechanism is installed on the threaded sleeve, an intermediate ring is installed in the middle of the rotating shaft, a bevel gear is sleeved on the outer side of the intermediate ring, a bevel gear is installed in the middle of the rotating shaft, the bevel gear is meshed with the vibration mechanism arranged along the circumference of the rotating shaft, the vibration mechanism is slidably arranged on the drying mechanism, the drying mechanism is installed at the upper end of the rotating shaft, an air blowing mechanism is arranged between the drying mechanism and the rotating shaft, and the storage mechanism located above the drying mechanism is installed in the shell.

[0010] As a preferred technical solution of the present invention, the air input pipe has the same structure as the air output pipe, and the air input pipe includes an air intake pipe, an air vent, a pipe, a sliding pipe 1, a sliding pipe 2, a sliding pipe 3, an electric slider group, and a bracket. The air intake pipe is installed at the front end inside the shell, and the air intake pipe is located on one side surface of the front end of the shell and has multiple air vents. A pipe is provided in the middle of the other side of the air intake pipe. In the initial position, the sliding pipe 2 corresponding to the position of the pipe is installed in the middle of the electric slider group, the sliding pipe 1 is installed at the upper end of the electric slider group, and the sliding pipe 3 is installed at the lower end of the electric slider group. The electric slider group slides up and down reciprocatingly on the bracket, and the sliding pipe 1, the sliding pipe 2, and the sliding pipe 3 are respectively connected to the drying module, the circulation module, and the humidification module through telescopic pipes, and the bracket is installed in the shell.

[0011] As a preferred technical solution of the present invention, a filter element is provided in the connecting pipe of the air input pipe, and an air pump is provided in the connecting pipe of the air output pipe.

[0012] As a preferred technical solution of the present invention, the drying mechanism includes a rotating chassis, a circular ring, a trigger assembly, a rotating plate, a locking assembly, an air blowing groove, and an ejection hole. The rotating chassis is installed at the upper end of the rotating shaft, and a circular ring with a mesh structure is installed around the rotating chassis. A pushing plate is arranged on the rotating chassis, and the pushing plate is a mesh structure. The trigger assembly is installed on the outer side of the circular ring. The rotating chassis is evenly provided with mounting grooves along the circumference of the rotating shaft. The rotating plate is rotatably arranged in the mounting groove. The inner side of the mounting groove is connected to the inner side of the rotating plate by a hinge. The position between the rotating chassis and the rotating plate is temporarily locked by the locking assembly. An air blowing groove connected to the air blowing mechanism is provided in the middle of the rotating chassis, and ejection holes are provided around the air blowing groove.

[0013] As a preferred technical solution of the present invention, the reset mechanism includes an arc-shaped member and a guide column. The upper end of the support column is fixedly mounted with the arc-shaped member, the lower end of the arc-shaped member is mounted with the guide column, and the upper end inclined surface of the arc-shaped member gradually rises in a clockwise direction.

[0014] As a preferred technical solution of the present invention, the trigger mechanism includes a threaded ring, a trigger member 1, a trigger member 2, a fixed ring, and a guide member. The threaded ring and the threaded sleeve are threadedly connected. Trigger member 1 and trigger member 2 are arranged on the threaded ring in a counterclockwise direction. The position of trigger member 1 corresponds to that of the locking component, and the position of trigger member 2 corresponds to that of the trigger component. The upper end of the threaded ring is elastically connected to the fixed ring, the threaded ring is connected to one end of the guide member, and the other end of the guide member is slidably arranged on the guide column.

[0015] As a preferred technical solution of the present invention, the trigger assembly includes an L-shaped tube, an extrusion plate, an extrusion column, and a trigger rod. The L-shaped tube is installed on a circular ring. An extrusion plate is slidably arranged in the horizontal tube of the L-shaped tube. The extrusion plate is elastically connected to the inner wall of the L-shaped tube. The inner end of the extrusion plate cooperates with the extrusion column. The extrusion column is longitudinally slidably arranged on the inner end of the horizontal tube of the L-shaped tube. The extrusion column is connected to the inner wall of the L-shaped tube by a spring. A trigger rod is slidably arranged in the vertical tube of the L-shaped tube.

[0016] As a preferred technical solution of the present invention, the locking assembly includes a placement shell one, a slider, a placement shell two, and an extrusion piece. The placement shell one is installed on the lower end surface of the rotating plate, and the slider is connected to the placement shell one through a spring. The slider in the initial position is clamped in the placement shell two installed on the lower end surface of the middle part of the rotating chassis. The lower end of the placement shell two is longitudinally slidably provided with an extrusion piece, and the extrusion piece is connected to the inner wall of the placement shell two through a telescopic spring.

[0017] As a preferred technical solution of the present invention, the vibration mechanism includes a gear shaft, a fixed frame, a cam member, an ejector member, a connecting plate, a clamping member, a clamping ring, and a vibration plate. The bevel gear is meshed with the gear on the gear shaft. The gear shaft is rotatably arranged on the fixed frame, and the fixed frame is arranged on the bottom surface of the middle part of the rotating chassis. A cam member is installed at the other end of the gear shaft. The ejector member used in conjunction with the cam member is slidably arranged on the rotating chassis up and down. A connecting plate is provided at the upper end of the ejector member, and a clamping member with an annular structure is installed at the edge of the connecting plate. The clamping member and the clamping ring are clamped and used for cooperation. The clamping ring is installed inside the vibration plate, and the vibration plate is slidably arranged on the rotating plate up and down.

[0018] As a preferred technical solution of the present invention, the air blowing mechanism includes a connecting pipe, an air blowing pipe, and an air pump. A connecting pipe is coaxially installed in the middle of the rotating chassis. The side wall of the connecting pipe is through-connected with the air blowing pipe through a guide pipe. The bottom of the connecting pipe is connected to the air blowing groove. The upper end of the connecting pipe is sealed and rotated with the air outlet of the air pump. The air pump is installed on the chassis of the storage mechanism.

[0019] As a preferred technical solution of the present invention, the storage mechanism comprises a storage box, an electric rotating frame, a drop opening 1, a drop hopper, a drop opening 2, a feed opening, a placement box, a baffle 1, a baffle 2, an electric push rod, and a power supply box. The storage box is installed at the upper end inside the shell, and an electric rotating frame is installed inside the storage box. A drop opening 1 is provided at the bottom of the storage box, and a drop hopper is installed on the drop opening 1. A drop opening 2 is provided at the lower end of the drop hopper, and a feed opening is provided on the upper side wall of the drop hopper. The upper end of the feed opening is connected with a partition member through a pin shaft, and a placement box is installed at the bottom of the storage box. A baffle 1 is slidably provided at the upper end of the placement box, and a baffle 2 is slidably provided at the lower end of the placement box. The baffle 1 and the baffle 2 are L-shaped structures, and a drop hole corresponding to the drop opening 2 is provided on the baffle 2. The outer side surface of the baffle 1 is connected to the electric push rod, and the electric push rod is electrically connected to the power supply box installed at the bottom of the storage box, and the switch in the power supply box corresponds to the position between the trigger rod.

[0020] The air purification device for the five-constant system described in the present invention can be adjusted and circulated according to the air humidity in the family room. When the air humidity in the room is too high, the drying module absorbs the moisture in the air by using a desiccant to reduce the moisture content in the air. At the same time, the desiccant is vibrated and blown away by a vibration mechanism and an air blowing mechanism to prevent the desiccant from sticking together after absorbing moisture. The vibration and dispersion can increase the contact range between the desiccant and the air, improve the utilization rate of the desiccant and the efficiency of the air drying cycle, and then the used humidifier is regularly discharged, evaporated, crystallized, and circulated, so as to achieve the purpose of recycling and avoid waste; when the air humidity in the room is appropriate, the circulation module will purify and circulate the air in the room to ensure that the oxygen content of the air in the room is appropriate; when the air humidity in the room is too low, the humidification module will humidify to increase the water content in the air to ensure that the air humidity is appropriate. This application has played a good role in the effect of the five-constant system air purification cycle. This product has the functions of automatic detection, adjustment, and recycling, which improves the efficiency of air purification cycle adjustment, increases the utilization rate of desiccant, and avoids waste. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic diagram of the structure of the present invention;

[0022] Figure 2 It is a schematic diagram of the main structure of the present invention;

[0023] Figure 3 is a first structural schematic diagram of a drying module of the present invention;

[0024] Figure 4 is a second structural schematic diagram of the drying module of the present invention;

[0025] Figure 5 is a cross-sectional view of a drying module of the present invention;

[0026] Figure 6 It is a structural schematic diagram of the air blowing mechanism and the drying mechanism of the present invention;

[0027] Figure 7 The present invention Figure 5 A local enlarged view of point A;

[0028] Figure 8 The present invention Figure 5 A partial enlarged view of point B;

[0029] Fig. 9 It is a structural schematic diagram of the trigger assembly and the material storage mechanism of the present invention;

[0030] Fig.10 It is a structural schematic diagram of the reset mechanism of the present invention.

[0031] Explanation of reference numerals: 1, housing; 2, air inlet pipe; 3, drying module; 4, circulation module; 5, humidification module; 6, air outlet pipe; 20, air intake pipe; 21, air vent; 22, pipeline; 23, sliding pipe 1; 24, sliding pipe 2; 25, sliding pipe 3; 26, electric slider group; 27, bracket; 28, filter element; 61, air pump; 30, heating plate; 31, storage shell; 32, reset mechanism; 33, rotation moving shaft; 34, threaded sleeve; 35, trigger mechanism; 36, bevel gear; 37, vibration mechanism; 38, drying mechanism; 39, air blowing mechanism; 310, material storage mechanism; 380, rotating chassis; 381, ring; 382, ​​trigger assembly; 383, rotating plate; 384, locking assembly; 385, air blowing slot; 386, ejection hole; 320, arc member; 321, guide column; 350, threaded ring; 351, trigger Trigger 1; 352, trigger 2; 353, fixing ring; 354, guide; 3820, L-shaped tube; 3821, extrusion plate; 3822, extrusion column; 3823, trigger rod; 3840, placement shell 1; 3841, slider; 3842, placement shell 2; 3843, extrusion; 370, gear shaft; 371, fixing frame; 372, cam; 373, ejector; 374, connecting plate; 375, Snap-on parts; 376, snap-on ring; 377, vibrating plate; 390, connecting pipe; 391, air blow pipe; 392, air pump; 3100, material storage box; 3101, electric rotating frame; 3102, material drop port 1; 3103, material drop hopper; 3104, material drop port 2; 3105, material feed port; 3106, storage box; 3107, baffle 1; 3108, baffle 2; 3109, electric push rod; 3110, power supply box. DETAILED DESCRIPTION

[0032] The following is combined with Figures 1 to 10 This application is described in further detail.

[0033] The embodiment of the present application discloses an air purification device for a five-constant system. The present application adjusts the air humidity in the room in multiple ways, and adopts multiple functions such as automatic sensing detection, controllable adjustment, and recycling. It solves the problem that the air in the room will produce different dryness and humidity, and improves the effect of circulating and purifying the air in the room.

[0034] Reference Figure 1As shown, an air purification device for a five-constant system disclosed in this embodiment includes a housing 1, an air input pipe 2, a drying module 3, a circulation module 4, a humidification module 5, and an air output pipe 6. The housing 1 is a fixed foundation, and a universal wheel is provided at the lower end of the housing 1. A dryness and humidity sensor is provided on the upper side of the front end of the housing 1. The dryness and humidity sensor of the prior art is an electronic device for measuring the relative humidity of the environment, which is widely used in various fields. According to its working principle, the dryness and humidity sensor is mainly divided into two types: capacitive and resistive. The capacitive humidity sensor detects humidity by measuring the change of capacitance, and has the characteristics of high precision, fast response and low power consumption. It is suitable for applications with high humidity requirements. The air input pipe 2 is installed at the front end inside the housing 1, and the drying module 3 is installed above the housing inside the housing 1. The drying module 3 performs cyclic drying and regulation on the air humidity. The circulation module 4 is installed in the middle of the housing of the housing 1, and the circulation module 4 circulates and discharges the air. The humidification module 5 is installed below the housing inside the housing 1. The humidification module 5 of the prior art humidifies and circulates the air, and the air output pipe 6 is installed at the rear end inside the housing 1.

[0035] In the actual operation process, the humidity in the air is first detected in real time through the dryness and humidity sensor. When the humidity is greater than the preset value, the dryness and humidity sensor transmits the data to its terminal. The terminal receives the data and controls the air input pipe 2 and the air output pipe 6 to rise and fall to a suitable height so as to dock with the drying module 3. The drying module 3 dries and circulates the air in the room; when the humidity is less than the preset value, the terminal controls the air input pipe 2 and the air output pipe 6 to dock with the humidification module 5, and the humidification module 5 humidifies and circulates the air in the room; when the humidity meets the preset value, the output end controls the air input pipe 2 and the air output pipe 6 to dock with the circulation module 4, and the circulation module 4 purifies and circulates the air in the room to keep the air fresh in the room.

[0036] Reference Figures 3 to 6As shown, the drying module 3 includes a heating plate 30, a storage shell 31, a reset mechanism 32, a rotating shaft 33, a threaded sleeve 34, a trigger mechanism 35, a bevel gear 36, a vibration mechanism 37, a drying mechanism 38, an air blowing mechanism 39, and a material storage mechanism 310. The heating plate 30 is installed around the bottom plate, the upper end of the heating plate 30 is connected to the storage shell 31, the storage shell 31 is connected to the outer shell 1 through a connecting piece, the reset mechanism 32 is installed on the bottom plate through a supporting column, the middle part of the bottom plate is provided with a rotating shaft 33, the lower end of the rotating shaft 33 is sleeved with a threaded sleeve 34, the trigger mechanism 35 is installed on the threaded sleeve 34, and the middle part of the rotating shaft 33 An intermediate ring is installed, and a bevel gear 36 is sleeved on the outer side of the intermediate ring. The bevel gear 36 is meshed with a vibration mechanism 37 arranged along the circumference of the rotating shaft. The vibration mechanism 37 is slidably arranged on a drying mechanism 38. The drying mechanism 38 is installed at the upper end of the rotating shaft 33. An air blowing mechanism 39 is arranged between the drying mechanism 38 and the rotating shaft 33. A storage mechanism 310 located above the drying mechanism 38 is installed in the outer shell 1. A conveying pipe is installed between the storage shell 31 and the storage mechanism 310. The conveying pipe with a built-in pump body conveys the dried granular desiccant in the storage shell 31 to the storage mechanism 310, thereby completing the repeated recycling of the desiccant.

[0037] In actual operation, when the dryness and humidity sensor detects that there is more moisture in the air, its output end controls the air input pipe 2 and the air output pipe 6 to be connected to the drying module 3, and drives the bevel gear 36, the drying mechanism 38, and the air blowing mechanism 39 to rotate through the rotating shaft 38. When the input air passes through the drying mechanism 38, the desiccant in the drying mechanism 38 dries the air. When the bevel gear 36 rotates, the vibration mechanism 37 cooperates with the bevel gear 36 to perform a vibration operation, thereby vibrating and breaking up the desiccant. The gaps between the desiccant after being broken up are increased, thereby avoiding the situation where the desiccant becomes sticky after absorbing moisture in the air and causing mutual adhesion. In addition, the inner and outer layers, and the upper and lower layers of the desiccant after being broken up are interchanged, thereby improving the The contact rate between the desiccant and the moisture in the area is increased, and the utilization rate of the desiccant is improved, so that the moisture in the air can be dried better. When the trigger mechanism 35 is triggered to the drying mechanism 38 through the threaded sleeve 34, the air blowing mechanism 39 and the drying mechanism 38 cooperate with each other to discharge the humidifier that has completed the humidification operation in the drying mechanism 38 into the storage shell 31, and the heating plate 30 heats the humidifier in the storage shell 31, and the formed granular humidifier is re-transported to the storage mechanism 310 through the conveying pipe (during the evaporation process, the hot steam generated by the heating plate 30 is discharged to the outside through the outlet opened on the side wall of the storage shell 31). When the drying mechanism 38 is reset by the reset mechanism 32, the storage mechanism 310 performs a filling operation on the empty drying mechanism 38.

[0038] Reference Figure 2As shown, the structure of the air input pipe 2 is the same as that of the air output pipe 6. The air input pipe 2 includes an air intake pipe 20, an air vent 21, a pipe 22, a sliding pipe 1 23, a sliding pipe 24, a sliding pipe 3 25, an electric slider group 26, and a bracket 27. The air intake pipe 20 is installed at the front end of the shell 1. The air intake pipe 20 is located on one side surface of the front end of the shell 1 and has multiple air vents 21. The middle part of the other side of the air intake pipe 20 is provided with a pipe 22. In the initial position, the sliding pipe 24 corresponding to the position of the pipe 22 is installed in the middle part of the electric slider group 26. The sliding pipe 1 23 is installed at the upper end of the electric slider group 26, and the sliding pipe 3 25 is installed at the lower end of the electric slider group 26. The electric slider group 26 performs up and down reciprocating sliding on the bracket 27. The sliding pipe 1 23, the sliding pipe 24, and the sliding pipe 3 25 are respectively connected to the drying module 3, the circulation module 4, and the humidification module 5 through telescopic pipes. The bracket 27 is installed in the shell 1.

[0039] A filter element 28 is arranged in the connecting pipe of the air input pipe 2 , and the filter element 28 filters dust particles in the air. An air pump 61 is arranged in the connecting pipe of the air output pipe 6 .

[0040] In the actual air delivery process, the air in the room is discharged in a cyclic manner through the air pump 61, and the dry and wet sensor detects the air humidity in the room in real time and transmits the detection data to its terminal. The terminal receives the data to control the sliding tube 1 23, the sliding tube 24, and the sliding tube 3 25 to rise and fall synchronously. According to the current air humidity value, one of the sliding tube 1 23, the sliding tube 24, and the sliding tube 3 25 is targetedly connected to the pipeline 22, thereby completing an air purification system suitable for the room.

[0041] Reference Figures 3 to 6 As shown, the drying mechanism 38 includes a rotating chassis 380, a ring 381, a trigger assembly 382, ​​a rotating plate 383, a locking assembly 384, an air blowing slot 385, and a spray hole 386. The upper end of the rotating shaft 33 is equipped with a rotating chassis 380, and a ring 381 with a mesh structure is installed around the rotating chassis 380. A push plate is arranged on the rotating chassis 380. The push plate is a mesh structure. The push plate rotates inside the ring 381 to separate the desiccant. The trigger assembly is installed on the outside of the ring 381. 382, the trigger assembly 382 cooperates with the storage mechanism 310, and the rotating chassis 380 is provided with seating grooves evenly arranged along the circumference of the rotating axis. The rotating plate 383 is rotatably arranged in the seating groove. The inner side of the seating groove is connected to the inner side of the rotating plate 383 by a hinge. The position between the rotating chassis 380 and the rotating plate 383 is temporarily locked by a locking assembly 384. An air blowing groove 385 connected to the air blowing mechanism 39 is provided in the middle of the rotating chassis 380, and a spray hole 386 is provided around the air blowing groove 385.

[0042] Reference Fig.10 As shown, the reset mechanism 32 includes an arc-shaped member 320 and a guide column 321. The arc-shaped member 320 is fixedly mounted on the upper end of the support column, and the guide column 321 is mounted on the lower end of the arc-shaped member 320. The upper end inclined surface of the arc-shaped member 320 gradually rises in a clockwise direction.

[0043] Reference Figures 3 to 5 As shown, the trigger mechanism 35 includes a threaded ring 350, a trigger member 1 351, a trigger member 2 352, a fixed ring 353, and a guide member 354. The threaded ring 350 and the threaded sleeve 34 are threadedly connected. The threaded ring 350 is provided with a trigger member 1 351 and a trigger member 2 352 in a counterclockwise direction. The position of the trigger member 1 351 corresponds to that of the locking assembly 384, and the position of the trigger member 2 352 corresponds to that of the trigger assembly 382. The upper end of the threaded ring 350 is elastically connected with the fixed ring 353. The threaded ring 350 is connected to one end of the guide member 354, and the other end of the guide member 354 is slidably provided on the guide column 321 to limit the upward sliding operation of the threaded ring 350.

[0044] During the actual drying operation, under the threaded cooperation between the threaded sleeve 34 and the threaded ring 350, the fixed ring 353 and the threaded ring 350 rise synchronously, and the trigger member 1 351 and the trigger member 2 352 move upward synchronously until the threaded ring 350 rises to the highest position (the fixed ring 353 touches the bottom of the middle ring, and an elastic force is generated between the threaded ring 350 and the fixed ring 353, thereby always maintaining the elastic force pressing down on the threaded ring 350), and the trigger member 1 351 squeezes the locking assembly 384. At this time, the position between the rotating plate 383 and the rotating chassis 380 is unlocked, and the rotating plate 383 rotates downward with the hinge as the rotating axis, the ejection hole 386 opens, and the ejected gas is discharged. The rotating plate 383 with a corresponding tilt angle discharges the desiccant into the storage shell 31. When the rotating plate 383 rotates to the reset mechanism 32, the rotating plate 383 is reset upward by the squeezing force of the arc member 320 until the locking assembly 384 is locked again. At this time, the spray hole 386 is blocked and closed by the rotating plate 383. Then, the trigger member 352 contacts the trigger assembly 382, ​​driving the storage mechanism 310 to perform the injection operation. When the injection work is completed, the rotating shaft 33 is reversed. Since the fixing ring 353 and the threaded ring 350 are elastically connected, the threaded ring 350, which is always in a downward pressure trend, re-engages with the threaded sleeve 34 to perform a downward reset movement.

[0045] Reference Figure 8As shown, the locking assembly 384 includes a placement shell 1 3840, a slider 3841, a placement shell 2 3842, and an extrusion piece 3843. The placement shell 1 3840 is installed on the lower end surface of the rotating plate 383. The placement shell 1 3840 is connected with the slider 3841 through a spring. The slider 3841 in the initial position is clamped in the placement shell 2 3842 installed on the lower end surface of the middle part of the rotating chassis 380. The lower end of the placement shell 2 3842 is longitudinally slidably provided with an extrusion piece 3843. The upper end inclined surface of the extrusion piece 3843 is a structure that gradually inclines upward from the outside to the inside. The extrusion piece 3843 is connected to the inner wall of the placement shell 2 3842 through a telescopic spring.

[0046] During the actual locking operation, the extrusion piece 3843 slides upward due to the upward extrusion force of the trigger piece 351, and the extrusion piece 3843 is squeezed onto the slider 3841, and the slider 3841 is completely retracted into the placement shell 1 3840. At this time, the position between the rotating plate 383 and the rotating chassis 380 is unlocked. When the rotating plate 383 is reset upward due to the extrusion force of the arc-shaped piece 320, after the rotating plate 383 and the rotating chassis 380 are in the same horizontal plane, the slider 3841 is re-stuck into the placement shell 2 3842 under the action of the spring, thereby completing the locking of the position between the rotating plate 383 and the rotating chassis 380.

[0047] Reference Figures 3 to 5 As shown, the vibration mechanism 37 includes a gear shaft 370, a fixing frame 371, a cam member 372, an ejector member 373, a connecting plate 374, a snap member 375, a snap ring 376, and a vibration plate 377. The bevel gear 36 is meshed with the gear on the gear shaft 370. The gear shaft 370 is rotatably arranged on the fixing frame 371. The fixing frame 371 is arranged on the bottom surface of the middle part of the rotating chassis 380. The other end of the gear shaft 370 is installed with a cam member 372. The ejector member 373 used in conjunction with the cam member 372 is slidably arranged on the rotating chassis 380 up and down. The upper end of the ejector member 373 is provided with a connecting plate 374. The edge of the connecting plate 374 is provided with a snap member 375 of an annular structure. The snap member 375 and the snap ring 376 are snap-fitted and used for use. The snap ring 376 is installed inside the vibration plate 377. The vibration plate 377 is slidably arranged on the rotating plate 383 up and down.

[0048] In the actual vibration process, the bevel gear 36 and the gear shaft 370 are meshed with each other to drive the cam member 372 to rotate. At this time, the ejector 373 drives the connecting plate 374 to vibrate up and down. When the rotating plate 383 and the rotating chassis 380 are locked together, the clamping member 375 and the clamping ring 376 are clamped together, and the connecting plate 374 drives the vibration plate 377 to vibrate up and down, thereby vibrating and breaking up the desiccant. The gaps between the desiccant after breaking up are increased, avoiding the situation of mutual adhesion caused by becoming sticky after absorbing moisture in the air, and the inner and outer layers, upper and lower layers of the desiccant after breaking up are interchanged, which improves the desiccant and water absorption in each area. The contact rate between the parts is increased, the utilization rate of the desiccant is improved, and the moisture in the air can be dried better. When the rotating plate 383 and the rotating chassis 380 are unlocked, the clamping part 375 and the clamping ring 376 are disconnected (the clamping part 375 and the clamping ring 376 are in a Z-shaped clamping fit. In order to ensure that there is no structural obstruction between the side wall of the clamping part 375 and the side wall of the clamping ring 376 when the vibration plate 377 rotates, there is a gap between the two, but this part of the gap will not cause the desiccant to leak, nor will it affect the normal desiccant operation of the desiccant on the vibration plate 377), and the rotating plate 383 drives the vibration plate 377 to rotate.

[0049] Reference Figure 3 , Figure 7 As shown, the air blowing mechanism 39 includes a connecting pipe 390, an air blowing pipe 391, and an air pump 392. The connecting pipe 390 is coaxially installed in the middle of the rotating chassis 380. The side wall of the connecting pipe 390 is connected to the air blowing pipe 391 through the guide pipe. The bottom of the connecting pipe 390 is connected to the air blowing groove 385. The upper end of the connecting pipe 390 is sealed and rotatably connected to the air outlet of the air pump 392. The air pump 392 is installed on the chassis of the storage mechanism 310.

[0050] During the actual air blowing process, the gas is transported to the connecting pipe 390 by the air pump 392 and then diverted to the air blowing pipe 391 and the air blowing groove 385. The air blowing of the air blowing pipe 391 and the vibration of the vibration plate 377 vibrate and blow away the desiccant on the rotating chassis 380 (the air blowing groove 385 is in a blocked state at this time) to avoid the desiccant from sticking together and affecting the utilization rate of the desiccant. When the angle of the rotating plate 383 is adjusted, the air blowing groove 385 is no longer blocked and forms an open state. The air blowing groove 385 and the air blowing pipe 391 blow off the desiccant on the surface of the inclined vibration plate 377 to accelerate the downward discharge of the desiccant.

[0051] Reference Fig. 9As shown, the storage mechanism 310 includes a storage box 3100, an electric rotating frame 3101, a material drop port 1 3102, a material drop hopper 3103, a material drop port 2 3104, a material feed port 3105, a placement box 3106, a baffle 1 3107, a baffle 2 3108, an electric push rod 3109, and a power supply box 3110. The storage box 3100 is installed at the upper end of the housing 1. The electric rotating frame 3101 is provided, and the electric rotating frame 3101 allows the desiccant to be evenly filled into the hopper 3103. The bottom of the storage box 3100 is provided with a drop opening 3102, and the drop hopper 3103 is installed on the drop opening 3102. The lower end of the drop hopper 3103 is provided with a drop opening 2 3104, and the upper end side wall of the drop hopper 3103 is provided with a feed opening 3105. The upper end of the feed opening 3105 is provided with a A partition is connected through the pin shaft to prevent the desiccant from being brought out when the baffle 1 3107 is pulled out. A placement box 3106 is installed at the bottom of the storage box 3100. A baffle 1 3107 is slidably provided on the upper end of the placement box 3106, and a baffle 2 3108 is slidably provided on the lower end of the placement box 3100. The baffles 1 3107 and 3108 are L-shaped structures. The inner side surface of the vertical plate of the baffle 1 3107 and the outer side surface of the vertical plate of the baffle 2 3108 are installed with magnetic structures corresponding to the positions. The baffle 2 3108 is provided with a blanking hole corresponding to the blanking port 2 3104. The outer side surface of the baffle 1 3107 is connected to the electric push rod 3109, and the electric push rod 3109 is electrically connected to the power supply box 3110 installed at the bottom of the storage box 3100, and the switch in the power supply box 3110 corresponds to the position between the trigger rod 3823.

[0052] Reference Fig. 9 As shown, the trigger assembly 382 includes an L-shaped tube 3820, an extrusion plate 3821, an extrusion column 3822, and a trigger rod 3823. The L-shaped tube 3820 is installed on the ring 381. The extrusion plate 3821 is slidably arranged in the horizontal tube of the L-shaped tube 3820. The upper end inclined surface of the extrusion plate 3821 is a structure that gradually inclines upward from the outside to the inside. The extrusion plate 3821 is elastically connected to the inner wall of the L-shaped tube 3820. The inner end of the extrusion plate 3821 cooperates with the extrusion column 3822. The extrusion column 3822 is longitudinally slidably arranged on the inner end of the horizontal tube of the L-shaped tube 3820. The extrusion column 3822 is connected to the inner wall of the L-shaped tube 3820 through a spring. The trigger rod 3823 is slidably arranged in the vertical tube of the L-shaped tube 3820.

[0053] In the actual blanking process, in the initial state, the baffle plate 3108 closes the blanking port 3104, and the blanking port 3104 is opened. When the trigger member 352 presses the extrusion plate 3821 upward, the extrusion column 3822 will slide outward due to the extrusion force of the extrusion plate 3821. At this time, the extrusion column 3822 will push the trigger rod 3823 out to trigger the switch of the power supply box 3110. The power supply box 3110 supplies power to the electric push rod 3109 to drive the baffle plate 3107 to move. When the baffle plate 3107 is inserted into the feed port 3105 and completely closes the blanking port 3102, the baffle plate 3107 vertically moves. The inner side surface is magnetically attracted to the outer side surface of the vertical plate of baffle 2 3108, and baffle 1 3107 drives baffle 2 3108 to slide synchronously until the blanking hole is completely aligned with blanking port 2 3104, and the rotating chassis 380 is injected. When the desiccant in the blanking hopper 3103 is injected, baffle 1 3107 and baffle 2 3108 perform a reset movement (under the magnetic effect, the two are in a state of synchronous movement in the first half of the journey. When baffle 2 3108 moves to the initial position, baffle 1 3107 continues to move toward the initial position alone until it arrives), so that the storage box 3100 can complete the quantitative injection operation.

[0054] The air humidity in the room is detected by a dry and humid sensor, the detection data is transmitted to the terminal, and the air input pipe (2) and the air output pipe 6 are controlled to rise and fall. The specific steps are as follows:

[0055] a. When the humidity in the air exceeds the preset value, the terminal controls the sliding pipe 23 on the electric slider group 26 to dock with the pipe 22, and the drying mechanism 38 absorbs the moisture in the room through the desiccant, and at the same time uses the air blowing mechanism 39 and the vibration mechanism 37 to improve the utilization rate of the desiccant, and finally the used desiccant is evaporated and dried by the heating plate 30 for recycling;

[0056] b. When the humidity in the air is within the preset range, the terminal controls the sliding tube 24 on the electric slider group 26 to dock with the pipe 22, and circulates the air in the room through the circulation module 4 to ensure that the oxygen content of the air in the room is suitable for human habitation;

[0057] c. When the humidity in the air is lower than the preset value, the terminal controls the sliding tube 25 on the electric slider group 26 to dock with the pipe 22, and increases the moisture content in the room air through the humidification module 5 to increase the air humidity.

[0058] The above description is only by way of illustration of certain exemplary embodiments of the present invention. It is undoubted that those skilled in the art can modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the above drawings and descriptions are illustrative in nature and should not be construed as limiting the scope of protection of the claims of the present invention.

Claims

1. An air purification device for a five-constant system, characterized in that: include: The housing (1) is provided with a universal wheel at its lower end, and a dryness and humidity sensor is provided at the upper side of the front end of the housing (1); An air inlet pipe (2) installed at the front end of the housing (1); A drying module (3) is installed above the interior of the housing (1), and the drying module (3) performs cyclic drying and regulation on the air humidity; A circulation module (4) is installed in the middle of the housing (1), and the circulation module (4) circulates and discharges air; A humidification module (5) is installed at the lower part of the shell of the housing (1), and the humidification module (5) humidifies and circulates the air; An air outlet pipe (6) mounted at the rear end of the housing (1); The drying module (3) comprises a heating plate (30), a bottom plate is installed in the middle of the heating plate (30), a storage shell (31) is connected to the upper end of the heating plate (30), the storage shell (31) is connected to the outer shell (1) through a connecting piece, a reset mechanism (32) is installed on the bottom plate through a support column, a rotating shaft (33) is arranged in the middle of the bottom plate, a threaded sleeve (34) is sleeved on the lower end of the rotating shaft (33), a trigger mechanism (35) is installed on the threaded sleeve (34), an intermediate ring is installed in the middle of the rotating shaft (33), and a trigger mechanism (35) is installed on the threaded sleeve (34). A bevel gear (36) is sleeved on the outside of the intermediate ring, and a bevel gear (36) is installed in the middle of the rotating shaft (33). The bevel gear (36) is meshed with a vibration mechanism (37) arranged along the circumference of the rotating shaft. The vibration mechanism (37) is slidably arranged on a drying mechanism (38). The drying mechanism (38) is installed at the upper end of the rotating shaft (33). An air blowing mechanism (39) is arranged between the drying mechanism (38) and the rotating shaft (33). A material storage mechanism (310) located above the drying mechanism (38) is installed in the housing (1); The air input pipe (2) has the same structure as the air output pipe (6). The air input pipe (2) comprises an air intake pipe (20), an air vent (21), a pipe (22), a sliding pipe 1 (23), a sliding pipe 2 (24), a sliding pipe 3 (25), an electric slider group (26), and a bracket (27). The front end of the housing (1) is provided with an air intake pipe (20). The air intake pipe (20) is located on a side surface of the front end of the housing (1) and is provided with a plurality of air vents (21). A pipe (22) is provided in the middle of the other side of the air intake pipe (20). When in the initial position, A second sliding tube (24) corresponding to the position of the pipeline (22) is installed in the middle of the electric slider group (26); a first sliding tube (23) is installed at the upper end of the electric slider group (26); a third sliding tube (25) is installed at the lower end of the electric slider group (26); the electric slider group (26) reciprocates up and down on the bracket (27); the first sliding tube (23), the second sliding tube (24), and the third sliding tube (25) are respectively connected to the drying module (3), the circulation module (4), and the humidification module (5) through telescopic tubes; and the bracket (27) is installed in the housing (1); A filter element (28) is arranged in the connecting pipe of the air input pipe (2), and an air pump (61) is arranged in the connecting pipe of the air output pipe (6); The drying mechanism (38) comprises a rotating chassis (380), a circular ring (381), a trigger assembly (382), a rotating plate (383), a locking assembly (384), an air blowing slot (385), and a spray hole (386). The rotating chassis (380) is installed at the upper end of the rotating shaft (33). A circular ring (381) with a mesh structure is installed around the rotating chassis (380). A pushing plate with a mesh structure is arranged on the rotating chassis (380). The trigger assembly (382) is installed outside the circular ring (381). 2), the rotating chassis (380) is provided with evenly arranged placement grooves along the circumference of the rotating shaft, the rotating plate (383) is rotatably arranged in the placement grooves, the inner side of the placement grooves is connected to the inner side of the rotating plate (383) by a hinge, the position between the rotating chassis (380) and the rotating plate (383) is temporarily locked by a locking assembly (384), the middle part of the rotating chassis (380) is provided with an air blowing groove (385) connected to the air blowing mechanism (39), and the periphery of the air blowing groove (385) is provided with a spray hole (386).

2. The air purification device for the five-constant system according to claim 1 is characterized in that: The reset mechanism (32) comprises an arc-shaped member (320) and a guide column (321); the arc-shaped member (320) is fixedly mounted on the upper end of the support column, the guide column (321) is mounted on the lower end of the arc-shaped member (320), and the upper end inclined surface of the arc-shaped member (320) gradually rises in a clockwise direction.

3. The air purification device for a five-constant system according to claim 1, characterized in that: The trigger mechanism (35) comprises a threaded ring (350), a trigger member 1 (351), a trigger member 2 (352), a fixing ring (353), and a guide member (354). The threaded ring (350) and the threaded sleeve (34) are threadedly connected. The threaded ring (350) is provided with a trigger member 1 (351) and a trigger member 2 (352) in a counterclockwise direction. The position of the trigger member 1 (351) corresponds to that of the locking assembly (384), and the position of the trigger member 2 (352) corresponds to that of the trigger assembly (382). The fixing ring (353) is elastically connected to the upper end of the threaded ring (350). The threaded ring (350) is connected to one end of the guide member (354), and the other end of the guide member (354) is slidably provided on the guide column (321).

4. The air purification device for a five-constant system according to claim 1, characterized in that: The trigger assembly (382) comprises an L-shaped tube (3820), an extrusion plate (3821), an extrusion column (3822), and a trigger rod (3823). The L-shaped tube (3820) is mounted on the circular ring (381). An extrusion plate (3821) is slidably arranged in the horizontal tube of the L-shaped tube (3820). The extrusion plate (3821) is elastically connected to the inner wall of the L-shaped tube (3820). An inner end of the extrusion plate (3821) cooperates with the extrusion column (3822). The extrusion column (3822) is longitudinally slidably arranged on the inner end of the horizontal tube of the L-shaped tube (3820). The extrusion column (3822) is connected to the inner wall of the L-shaped tube (3820) via a spring. A trigger rod (3823) is slidably arranged in the vertical tube of the L-shaped tube (3820).

5. The air purification device for the five-constant system according to claim 1 is characterized in that: The locking assembly (384) comprises a placing shell (3840), a slider (3841), a placing shell (3842), and an extrusion piece (3843). The placing shell (3840) is installed on the lower end surface of the rotating plate (383). The placing shell (3840) is connected with the slider (3841) via a spring. The slider (3841) at the initial position is clamped in the placing shell (3842) installed on the lower end surface of the middle part of the rotating chassis (380). The lower end of the placing shell (3842) is provided with an extrusion piece (3843) for longitudinal sliding. The extrusion piece (3843) is connected to the inner wall of the placing shell (3842) via a telescopic spring.

6. The air purification device for a five-constant system according to claim 1, characterized in that: The vibration mechanism (37) comprises a gear shaft (370), a fixing frame (371), a cam member (372), an ejector member (373), a connecting plate (374), a clamping member (375), a clamping ring (376), and a vibration plate (377); the bevel gear (36) and the gear on the gear shaft (370) are meshed with each other; the gear shaft (370) is rotatably arranged on the fixing frame (371); the fixing frame (371) is arranged on the bottom surface of the middle part of the rotating chassis (380); the other end of the gear shaft (370) is installed A cam member (372) is provided, and an ejector member (373) used in conjunction with the cam member (372) is slidably arranged on a rotating chassis (380) up and down. A connecting plate (374) is provided at the upper end of the ejector member (373), and a clamping member (375) of an annular structure is installed on the edge of the connecting plate (374). The clamping member (375) and a clamping ring (376) are clamped and used together. The clamping ring (376) is installed inside a vibration plate (377), and the vibration plate (377) is slidably arranged on the rotating plate (383) up and down.

7. The air purification device for the five-constant system according to claim 1 is characterized in that: The air blowing mechanism (39) comprises a connecting pipe (390), an air blowing pipe (391), and an air pump (392). The connecting pipe (390) is coaxially mounted in the middle of the rotating chassis (380). The side wall of the connecting pipe (390) is connected to the air blowing pipe (391) through a guide pipe. The bottom of the connecting pipe (390) is connected to the air blowing groove (385). The upper end of the connecting pipe (390) is connected to the air outlet of the air pump (392) in a sealed rotating connection. The air pump (392) is mounted on the chassis of the material storage mechanism (310).

8. The air purification device for a five-constant system according to claim 4, characterized in that: The material storage mechanism (310) comprises a material storage box (3100), an electric rotating frame (3101), a first material drop opening (3102), a material drop hopper (3103), a second material drop opening (3104), a material feed opening (3105), a placement box (3106), a first baffle (3107), a second baffle (3108), an electric push rod (3109), and a power supply box (3110). The material storage box (3100) is mounted at the upper end of the housing (1). The electric rotating frame (3101) is mounted inside the material storage box (3100). A first material drop opening (3102) is provided at the bottom of the material storage box (3100). A material drop hopper (3103) is mounted on the first material drop opening (3102). A second material drop opening (3104) is provided at the lower end of the material drop hopper (3103). A side wall of the upper end of the material drop hopper (3103) is provided. A feeding port (3105) is provided, the upper end of the feeding port (3105) is connected with a baffle member through a pin shaft, a placing box (3106) is installed at the bottom of the material storage box (3100), a baffle plate 1 (3107) is slidably provided at the upper end inside the placing box (3106), and a baffle plate 2 (3108) is slidably provided at the lower end inside the placing box (3106), the baffle plates 1 (3107) and 2 (3108) are L-shaped structures, a material drop hole corresponding to the material drop port 2 (3104) is opened on the baffle plate 2 (3108), the outer side surface of the baffle plate 1 (3107) is connected with an electric push rod (3109), the electric push rod (3109) is electrically connected with a power supply box (3110) installed at the bottom of the material storage box (3100), and the position of the switch in the power supply box (3110) corresponds to that of the trigger rod (3823).

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